Improvement of the Conditions of Separation of Cuts on the Humps of Middle Power Slides

Abstract

The aim of the work is to improve the conditions for the separation of cuts on the switch of humps of medium power as a result of improving the design of their hump neck. Methodology. Studies of the design of the throat neck were carried out on the basis of a simulation of the rolling process of the calculated group of cuts on a hump of medium power using an iterative method of optimizing the braking modes of cuts. Results. It has been established that on medium-sized sorting hills in hump necks with one braking position on the downhill part of the hump, it is advisable to lengthen the switch zone located behind the braking position. This will increase the intervals between the cuts on the dividing switches and thereby improve the quality of the interval control of the speed of the cuts when the trains are disbanded. Scientific novelty. For the first time, the dependences of the intervals between the cuts on the dividing switches of the hillside bundles of the hump on the elongation of its switch zone located behind the brake position on the downhill of the hump were established. Practical significance. The results can be used to improve the design of humps and increase the efficiency of the sorting process on humps of medium power.

Some Methods and Algoriths for Evaluation of Well Equipment and Regime Parameters in Rod, Depth Pump Oil Wells

“…The fill percentage is also calculated from the values of these functions. The values of the distribution function and the percentage of filling were realized with the help of the commands of the DELPHI VII programming system [10].…”

“…Step 2: it is determined that the beginning of the arrays belongs to the ascending or descending semicircle. qalx_en:=0; if (x1 [10]>x1 [6]) and (x1 [10]>x1 [5]) and (x1 [7]>x1 [3]) and (x1 [7]>x1 [2]) then qalx_en:=1; Step3: the part of the array corresponding to a period is separated. if qalx_en=1 then begin i_i:=n; while x1[i_i]< x1 [1] do i_i:=i_i-1; while x1[i_i]> x1 [1] Step 7: Find the rotation time (per_iod) of the pinch machine and the number of revolutions per minute (num_n) according to the time d_t between the readings of the points.. per_iod:=n_y*d_t/1000; num_n:= 60/per_iod; As a result, the values of the experimental distribution function m_50 and the percentage of filling of the pump, the period of rotation of the pinch machine (per_iod) and the number of cycles per minute (num_n) are found.…”